In this post, I first summarize the source document. Then, I query how the theories contained in that document can be used to pursue TMT (Transmaterialization Technology), EVP (Electronic Voice Phenomena) and ITC (Instrumental Transcommunication) research. Since the document is large, I based the query only on content in the “Paranormal” section of the document. I used Open AI’s Chat GPT4 as an assistant in writing this post.
https://www.academia.edu/92665697/TGD_inspired_theory_of_consciousness
Source document is 778 pages
Summary
**Preface**:
The document introduces Topological Geometrodynamics (TGD) as a potential unified theory of fundamental interactions, distinct from the Grand Unified Theories (GUTs) of the 1970s and 1980s. The author, Matti Pitkänen, recalls the inception of TGD in 1977, emphasizing its potential to address the conceptual challenges of general relativity, particularly concerning energy. TGD proposes that physical space-times can be represented as 4-dimensional surfaces within a higher-dimensional space-time. This approach leads to a generalized notion of space-time, where particles are represented by space-time surfaces. The unique internal space, CP2, offers a geometrization of gauge interactions and elementary particle quantum numbers. The author also touches upon the challenges faced in TGD, such as the non-conservation of gravitational energy and the implications of the zero energy ontology (ZEO).
The text delves deeper into the implications of TGD. It predicts the presence of long-ranged classical electro-weak and color gauge fields. The author suggests that these fields are classical correlates for long-range color and weak interactions associated with dark matter. The understanding of electro-weak massivation and the significance of the induced spinor field are also discussed. The development of quantum TGD is highlighted, emphasizing the generalization of Einstein’s program and the importance of p-adic number fields. The vision of physics as a generalized number theory emerges, integrating real numbers with various p-adic numbers.
The document further explores the TGD-inspired theory of consciousness, suggesting a profound connection between consciousness and quantum measurement theory. The author proposes that quantum jumps can be seen as moments of consciousness, replacing the traditional observer with the concept of “self.” This self remains conscious as long as it avoids entanglement with its environment. The idea of p-adic physics as the physics of cognition and intentionality is introduced, suggesting a fusion between real and p-adic worlds. The concept of negentropic entanglement, characterized by its positive aspects of conscious experience, is also discussed. The hierarchy of Planck constants and its implications for TGD are elaborated upon, emphasizing the significance of the reduction of this hierarchy to the foundational mathematical structure of TGD.
From a particle physics perspective, the ultimate goal of TGD is to construct the S-matrix of the theory. The author acknowledges the challenges due to the extensive restructuring and generalization required in the mathematical foundation of quantum physics. Key insights include the replacement of the S-matrix with the M-matrix in ZEO, the strengthening of the General Coordinate Invariance, and the replacement of strings with light-like 3-surfaces. The potential of quantum TGD to reduce to almost topological quantum field theory is also discussed.
** Basic Ideas of TGD Inspired Theory of Consciousness**
In this section, the author introduces the TGD Inspired Theory of Consciousness as a unified theory of fundamental interactions. The text explores the idea of representability of physical space-times as four-dimensional surfaces of some higher-dimensional space-time and its relationship to General Relativity. The concept of zero energy ontology is introduced, along with its implications for the conservation of inertial energy and Poincare invariance. The section concludes with an exploration of consciousness as a generalization of quantum measurement theory, discussing quantum jumps as moments of consciousness and the self as an observer that can avoid entanglement with the environment.
** Part I: Basic Ideas of TGD Inspired Theory of Consciousness**
This subsection dives deeper into the basic ideas of TGD. It covers the representability of physical space-times as four-dimensional surfaces, the relationship to General Relativity, and the concept of zero energy ontology. It also explores the implications of zero energy ontology for the conservation of inertial energy and Poincare invariance.
** Part II: Time and Consciousness**
This subsection focuses on the relationship between experienced and geometric time. It discusses how the arrow of geometric time correlates with the arrow of experienced time and how the localization of the contents of sensory experience to a narrow time interval emerges. The chapter also provides insights into TGD’s view of long-term memory.
** Part III: Intelligence, Information, and Cognition**
Part III explores TGD’s perspective on intelligence, information, and cognition. It touches on p-Adic physics as the physics of cognition and intentionality, and the role of many-fermion states as representations of Boolean statements. The section mentions the need for a chapter on the role of dark matter hierarchy, particularly topological quantum computation as a universal information processing tool.
** Part IV: Paranormal Phenomena**
Part IV delves into paranormal phenomena within the framework of TGD. It examines topics such as remote viewing and telepathy, discussing them in terms of quantum physics and consciousness. The section provides a new theoretical framework for understanding paranormal phenomena and their connection to consciousness and fundamental physics.
**Section 2: Negentropy Maximization Principle**
In this section, the focus shifts to the Negentropy Maximization Principle and its relationship to consciousness. The NMP is discussed as a fundamental principle governing the evolution of conscious systems and the self. The author explores the implications of the NMP for the quantum self and consciousness, providing insights into how consciousness can be understood as a process of maximizing negentropy.
**Section 3: Conscious Information and Intelligence**
This section delves into the relationship between conscious information and intelligence. It introduces the concept of the magnetic body as an intentional agent and experiencer, providing a perspective on the nature of conscious intelligence. The section also discusses the meanings of sensory, cognitive, and symbolic experiences and their relevance to consciousness and intelligence. Various measures for the information content of consciousness are explored, shedding light on how to quantify and understand conscious information.
**Section 4: Quantum Hardware of the Brain**
The final section explores the quantum hardware of the brain and its connection to consciousness. The role of magnetic monopoles in consciousness is discussed, providing a potential link between fundamental physics and brain function. The section also presents a simple model for cognition at the brain level, highlighting the importance of learning and rhythm in understanding brain processes. The chapter concludes with some brain-level applications of the TGD framework for cognition and consciousness.
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Application to TMT, ITC and EVP
**Instrumental Transcommunications (ITC) and Electronic Voice Phenomena (EVP) Overview**
– ITC and EVP are considered on the fringe of paranormal phenomena. Skeptically inclined scientists might find it challenging to take the claimed phenomena seriously.
– ITC is generally defined as messages communicated by conscious entities other than humans using various electronic instruments.
– EVP is a subset of ITC, manifesting as signals on magnetic tapes, voices heard directly from radio receivers, or even phone calls purportedly from the deceased. There are also reports of images appearing on computer screens.
– Friedrich Jurgenson is often credited as the pioneer of EVP. In 1959, while recording bird songs, he discovered unexpected voices on the tape, which he interpreted as messages from the deceased. This led to the publication of his books “Voices from Space” and “Radio-link with the Dead.”
– Konstantin Raudive, a professor of philosophy and psychology, became interested in EVP after meeting Jurgenson in 1965. He conducted intensive recordings and studies, culminating in his book “Breakthrough.”
**Characteristics of ITC**
– The role of the experimenter is crucial. The ability to receive messages is learned gradually. Systems that work for one experimenter might not work for another.
– The simplistic idea of spirits acting as radio stations might not be accurate. Voices from radio receivers often appear during silent periods containing only background noise. The sender seems to harness the energy of the noise to generate the message, suggesting a potential role for stochastic resonance.
**Questions and Considerations**
– A significant challenge is determining the authenticity of ITC messages. The brain tends to recognize patterns, so discerning between genuine electronic voices and “dead sounds” is complex. One approach is to analyze whether the electronic voices have spectra resembling human voices and if they carry enough information to be recognized as speech.
– In the TGD Universe, everything is conscious, and consciousness can only be lost through quantum entanglement. Thus, everything is alive. The question revolves around how effectively a system can control its state and its environment and the timescale of this control.
– Ordinary humans might unconsciously send these messages. Given the topological quantization of the classical electromagnetic field, it wouldn’t be surprising if humans could act as both receivers and senders of electromagnetic signals.
**TGD-based Model for ITC**
– The model suggests that the high noise in EVP and ITC instruments helps the sender to generate desired messages. Feedback from the experimenter’s brain to the sender aids the sender in learning to produce specific messages. The magnetic mirror bridges between the experimenter and the electronic instrument are a vital part of this system.
**Testing the Hypothesis**
– The hypothesis could be tested by purposefully building EVP and ITC instruments where the background noise can be varied.
– The idea that electronic systems contain bistable systems is subject to strong constraints, making it seem implausible in the standard physics framework.
**Conceptual Approach to Engineer an ITC System**
1. **Magnetic Mirror Bridges**: The document mentions the concept of “magnetic mirrors,” which facilitate the transmission of signals. For an automated ITC system, these would need to be artificially generated and maintained.
2. **Stochastic Resonance**: An engineered system should incorporate a mechanism for stochastic resonance, where a weak signal is amplified using noise.
3. **Feedback Mechanism**: In an automated system, this feedback could be simulated using advanced algorithms that refine and clarify the received signals over time.
4. **Remote Mental Interaction**: The system should still be designed to be receptive to these remote mental interactions, possibly through advanced sensors or quantum computing modules.
5. **Noise Variation**: An automated system should have the capability to vary the background noise intentionally.
6. **Magnetospheric Multi-brained Selves**: The engineered system might need to interface with larger, magnetospheric entities or systems that act as relay stations.
7. **Potential Senders**: The system should be designed with an open architecture, allowing for communication from a variety of potential sources.
8. **Signal Analysis**: The system should incorporate advanced signal analysis algorithms to differentiate between genuine electronic voices and random “dead sounds.” By integrating these concepts and mechanisms, it’s conceivable to design an automated ITC system that operates without the need for a human operator, relying solely on the mechanics and advanced algorithms of the system.